University of Central Oklahoma

What you'll study

The programme blends core physics fundamentals with engineering applications. Students take advanced modules in areas such as classical and quantum mechanics, electromagnetism, statistical mechanics, and materials science, together with engineering-focused subjects such as instrumentation and measurement, applied optics, solid-state devices, and computational methods for engineering.

The degree is typically offered with flexible pathways including research (thesis) and coursework (project/non-thesis) options. Common components include:

• Advanced theoretical modules — rigorous treatment of electrodynamics, quantum theory and statistical physics with emphasis on problem-solving for engineering contexts.
• Applied and experimental modules — laboratory courses in measurement techniques, electronics for physicists/engineers, optics and materials characterisation.
• Computational skills — numerical methods, simulation, signal processing and programming for modelling physical systems.
• Research project or thesis — independent research under faculty supervision, or an industry-focused project demonstrating applied skills and communication of results.

Elective topics allow specialisation in areas such as photonics and laser applications, electronic materials and devices, renewable energy systems, or instrumentation design. The programme emphasises hands-on laboratory work, data analysis, and preparation of technical reports and presentations.

Entry requirements

Applicants are normally expected to hold a bachelor's degree in physics, engineering physics, electrical engineering, mechanical engineering, materials science or a closely related discipline from a recognised institution. A strong foundation in undergraduate physics and mathematics (calculus, differential equations, linear algebra) is essential.

Typical entry criteria include:

• Good undergraduate academic record — specific GPA expectations are set by the department and may vary by applicant background.
• Transcripts demonstrating relevant coursework in physics and mathematics, and where applicable, engineering subjects.
• English language proficiency for international applicants as demonstrated by approved tests or prior studies in English.
• References and a personal statement describing academic preparation, research interests and career goals. Applicants with non-traditional backgrounds may be admitted with conditional requirements such as preparatory coursework.

Prospective students who plan to undertake the thesis pathway should indicate research interests and may be required to contact potential faculty supervisors as part of the application process.

Career prospects

Graduates of the Engineering Physics master’s develop a blend of analytical, experimental and computational skills that employers value across multiple sectors. Common career destinations include:

• Research and development roles in industrial laboratories and engineering firms.
• Instrumentation, sensor and measurement engineering for medical devices, environmental monitoring and manufacturing.
• Semiconductor and electronic materials industries, including device design and materials characterisation.
• Optics and photonics industries, such as laser systems, optical communications and imaging.
• Energy sector roles in renewable technologies, power systems and applied materials for energy storage.
• Technical consultancy, data analysis and computational modelling roles where physical modelling is required.
• Further academic research — graduates with the thesis option are prepared to progress to doctoral programmes.

The degree equips graduates for roles that require problem-solving, quantitative analysis and hands-on technical competence, and is appropriate for engineers seeking deeper physical foundations as well as physicists moving into applied engineering contexts.

Why study at University of Central Oklahoma

The University of Central Oklahoma provides a focused, student-centred postgraduate environment with small class sizes and accessible faculty supervisors. The department emphasises applied research and practical training, offering hands-on laboratory facilities and opportunities to work on projects that interface with regional industry and technology partners.

Students benefit from a balance of theoretical depth and practical engineering skills, mentorship from faculty with applied research interests, and a supportive campus environment that fosters collaboration across physics, engineering and allied disciplines. The programme’s flexibility in coursework and research pathways allows students to tailor their studies to specific career goals or preparation for doctoral study.